https://github.com/dirvine/saorsa-robotics
Scaffold for training Hugging Face SO-101 robotic arms using Vision-Language-Action policies without demonstrations
https://github.com/dirvine/saorsa-robotics
Last synced: 8 months ago
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Scaffold for training Hugging Face SO-101 robotic arms using Vision-Language-Action policies without demonstrations
- Host: GitHub
- URL: https://github.com/dirvine/saorsa-robotics
- Owner: dirvine
- Created: 2025-08-10T12:53:56.000Z (10 months ago)
- Default Branch: main
- Last Pushed: 2025-09-02T13:38:14.000Z (10 months ago)
- Last Synced: 2025-09-02T14:21:56.084Z (10 months ago)
- Language: Rust
- Homepage:
- Size: 788 KB
- Stars: 0
- Watchers: 0
- Forks: 1
- Open Issues: 0
-
Metadata Files:
- Readme: README.md
- Agents: AGENTS.md
Awesome Lists containing this project
README
# π€ Saorsa Robotics
> **Production-ready Rust framework for autonomous robotic control with local AI models**
[](https://www.rust-lang.org)
[](./crates/safety-guard)
[](./crates)
[](./LICENSE)
Saorsa Robotics provides a comprehensive, safety-first framework for robotic control systems with Vision-Language-Action (VLA) models running entirely on local hardware. Built in Rust for memory safety, performance, and reliability.
## π Key Features
### π§ Local AI Models
- **MolmoAct Integration**: Action Reasoning Model with 3D spatial understanding and Chain-of-Thought planning
- **Candle ML Framework**: Lightweight Rust-native inference without Python dependencies
- **OpenVLA Support**: Compatible with cloud and local VLA models
- **On-Device Learning**: Continual improvement through OFT adapters and intervention learning
### π‘οΈ Safety-Critical Design
- **Formal Constraint System**: Expression-based DSL for defining safety boundaries
- **Real-Time Monitoring**: Watchdog systems with automatic intervention
- **Zero Panic Guarantee**: No `unwrap()`, `expect()`, or `panic!()` in production code
- **Comprehensive Testing**: 100% test coverage on safety-critical paths
### π― Advanced Capabilities
- **Multi-Modal Control**: Voice commands, vision processing, and haptic feedback
- **Stereo Vision**: Depth perception with dual camera calibration
- **CAN Bus Integration**: Direct hardware control for motors and actuators
- **Intent Parsing**: Natural language to robot action conversion
### β‘ Performance
- **Zero-Copy Data Paths**: Efficient memory usage
- **Async/Await**: Non-blocking I/O throughout
- **Action Chunking**: Smooth control despite network latency
- **Real-Time Capable**: Deterministic timing for critical operations
## π Quick Start
### Prerequisites
```bash
# Install Rust
curl --proto '=https' --tlsv1.2 -sSf https://sh.rustup.rs | sh
# Clone repository
git clone https://github.com/dirvine/saorsa-robotics
cd saorsa-robotics
```
### Build and Test
```bash
# Build all crates
cargo build --release
# Run all tests
cargo test --all
# Run with safety checks
cargo run --bin sr-cli -- --safety-enabled
```
### Run Examples
```bash
# VLA Policy Demo
cargo run --example vla_policy_demo
# Wake Word Detection
cargo run --example wake_word_demo
# Safety Constraints Demo
cargo run --bin safety-demo
```
## π¦ Architecture
```
saorsa-robotics/
βββ apps/ # Application binaries
β βββ sr-cli/ # Main CLI interface
β βββ brain-daemon/ # Central coordination daemon
β βββ safety-demo/ # Safety system demonstration
β βββ kyutai-stt-app/ # Speech-to-text application
βββ crates/ # Core library crates
β βββ vla-policy/ # Vision-Language-Action models
β βββ safety-guard/ # Safety constraint engine
β βββ voice-local/ # On-device voice processing
β βββ vision-stereo/ # Stereo vision and depth
β βββ intent-parser/ # NLU and command parsing
β βββ can-transport/ # CAN bus communication
β βββ device-registry/ # Hardware device management
β βββ continual-learning/ # Online learning framework
βββ examples/ # Example applications
βββ configs/ # Device and system configs
βββ docs/ # Technical documentation
```
## π§ Core Components
### VLA Policy System (`vla-policy`)
Implements multiple Vision-Language-Action models for robot control:
```rust
use vla_policy::{create_policy, PolicyConfig, Observation};
// Create MolmoAct policy with 3D reasoning
let config = PolicyConfig {
model_type: "molmoact".to_string(),
model_path: "models/molmoact-7b".to_string(),
// ... configuration
};
let policy = create_policy(config)?;
let action = policy.predict(&observation).await?;
```
**Features:**
- MolmoAct with Chain-of-Thought reasoning
- Waypoint generation for complex tasks
- Skills framework (Pick, Place, Reach)
- Mock policy for testing
### Safety Guard (`safety-guard`)
Expression-based constraint system ensuring safe operation:
```rust
use safety_guard::{SafetyGuard, Constraint};
let mut guard = SafetyGuard::new();
// Define workspace boundaries
guard.add_constraint(Constraint::expression(
"workspace_x",
"x >= -0.5 && x <= 0.5"
)?);
// Check if action is safe
if guard.check_action(&action)? {
robot.execute(action)?;
}
```
**Features:**
- Mathematical expression constraints
- Real-time evaluation with evalexpr
- Watchdog monitoring
- Automatic intervention on violations
### Voice Control (`voice-local`)
On-device speech recognition and wake word detection:
```rust
use voice_local::{KyutaiProvider, WakeWordDetector};
let provider = KyutaiProvider::new(config)?;
let detector = WakeWordDetector::new("hey robot")?;
// Process audio stream
if detector.detect(&audio_frame)? {
let command = provider.transcribe(&audio_buffer)?;
execute_command(command)?;
}
```
**Features:**
- Kyutai/Mimi model integration
- Real-time transcription
- Wake word detection
- Plugin architecture for custom models
### Stereo Vision (`vision-stereo`)
Depth perception and 3D scene understanding:
```rust
use vision_stereo::{StereoCamera, DepthEstimator};
let camera = StereoCamera::new(config)?;
camera.calibrate()?;
let (left, right) = camera.capture()?;
let depth_map = DepthEstimator::compute(&left, &right)?;
let tags = detect_april_tags(&left)?;
```
**Features:**
- Dual camera calibration
- Real-time depth estimation
- AprilTag detection
- Point cloud generation
### CAN Transport (`can-transport`)
Hardware control via CAN bus:
```rust
use can_transport::{SlcanTransport, Message};
let transport = SlcanTransport::new("/dev/ttyUSB0")?;
// Send motor command
let msg = Message::new(0x123, &[0x01, 0x02, 0x03])?;
transport.send(&msg)?;
```
**Features:**
- SLCAN protocol support
- ODrive motor control
- T-Motor actuator support
- Mock transport for testing
## π§ͺ Testing
All crates maintain 100% test coverage on critical paths:
```bash
# Run all tests
cargo test --all
# Run with coverage
cargo tarpaulin --out Html
# Run safety-critical tests
cargo test -p safety-guard
# Run benchmarks
cargo bench
```
Current test status:
- β
`safety-guard`: 13/13 passing
- β
`vla-policy`: 21/21 passing
- β
`voice-local`: All doctests passing
- β
`intent-parser`: 1/1 passing
- β
Zero compilation warnings
## π Safety & Security
### Production Standards
- **No Panics**: Zero `unwrap()`, `expect()`, or `panic!()` in production
- **Error Handling**: All errors properly propagated with `Result`
- **Memory Safety**: Guaranteed by Rust's ownership system
- **Concurrency Safety**: Safe parallelism with Send/Sync traits
### Safety Features
- Formal constraint verification
- Watchdog timers on all operations
- Automatic failsafe modes
- Comprehensive audit logging
## π Documentation
- [Architecture Overview](./docs/README.md)
- [VLA Policy Design](./docs/SPEC.md)
- [Safety System](./crates/safety-guard/README.md)
- [CAN Protocol](./docs/CAN.md)
- [Vision System](./docs/VISION.md)
- [Voice Control](./docs/VOICE.md)
- [Research Notes](./docs/RESEARCH.md)
## πΊοΈ Roadmap
### Near Term
- [ ] ONNX runtime integration for broader model support
- [ ] ROS2 bridge for ecosystem compatibility
- [ ] Web dashboard for monitoring and control
- [ ] Simulation environment with Bevy
### Long Term
- [ ] Distributed multi-robot coordination
- [ ] Federated learning across robot fleets
- [ ] Custom silicon accelerator support
- [ ] Formal verification of safety properties
## π€ Contributing
We welcome contributions! Please see [CONTRIBUTING.md](./CONTRIBUTING.md) for guidelines.
Key areas for contribution:
- Additional VLA model implementations
- Hardware device drivers
- Safety constraint patterns
- Documentation and examples
## π License
MIT License - see [LICENSE](./LICENSE) for details.
## π Acknowledgments
- Built with [Candle](https://github.com/huggingface/candle) for ML inference
- Inspired by [LeRobot](https://github.com/huggingface/lerobot) for robot learning
- Safety patterns from aerospace and automotive industries
## π¬ Contact
- GitHub: [@dirvine](https://github.com/dirvine)
- Project: [Saorsa Labs](https://saorsa.org)
---
*For the original Python implementation for SO-101 arms, see [archive/python-so101](./archive/python-so101/README.md)*